Thermal stability of an interface-stabilized skyrmion lattice

The thermal stability of the magnetic nano-skyrmion lattice in the monolayer Fe/Ir(111) is investigated using temperature dependent spin-polarized scanning tunneling microscopy. Our experiments show that the skyrmion lattice disappears at a temperature of T_{c}=27.8  K, indicating a loss of long-ran...

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Veröffentlicht in:Physical review letters 2014-08, Vol.113 (7), p.077202-077202, Article 077202
Hauptverfasser: Sonntag, A, Hermenau, J, Krause, S, Wiesendanger, R
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Hermenau, J
Krause, S
Wiesendanger, R
description The thermal stability of the magnetic nano-skyrmion lattice in the monolayer Fe/Ir(111) is investigated using temperature dependent spin-polarized scanning tunneling microscopy. Our experiments show that the skyrmion lattice disappears at a temperature of T_{c}=27.8  K, indicating a loss of long-range magnetic order. At second-layer iron islands the lattice is pinned and local order persists at temperatures above T_{c}. The findings are explained in terms of the complex magnetic interactions involved in the formation of the skyrmion lattice.
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source American Physical Society Journals
subjects Hypothetical particles
Iron
Islands
Lattices
Nanostructure
Particle theory
Scanning tunneling microscopy
Thermal stability
title Thermal stability of an interface-stabilized skyrmion lattice
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